G2 Nutrition and Food Science (NFS) is a Singapore upper-secondary subject about nutrition, food literacy, safe preparation, cooking science and informed food choices. Its 2027 Singapore–Cambridge Secondary Education Certificate (SEC) code is K235. The result is split between a 90-minute written examination worth 40% and supervised coursework worth 60%. For families in Punggol, the important distinction is that this is not only a cooking class: candidates must understand food science, research a task, justify decisions, plan experiments, prepare food safely and evaluate their results using precise language.

Quick answer for parents: K235 Paper 1 is a compulsory 80-mark written paper with multiple-choice, short-answer, data-response and open-ended questions. Paper 2 is 60-mark coursework assigned at the beginning of the examination year under teacher supervision, with 25 hours of curriculum time for investigation and practical work. Students produce a 15–20-page word-processed report with relevant photographic evidence, and the work is assessed by the end of July or early August. Strong preparation combines reliable food knowledge with responsible research, kitchen safety, evidence-based decisions and honest reflection.

• Official 2027 G2 Nutrition and Food Science: K235; previous reference code 6073.
• Paper 1: written examination, 1 hour 30 minutes, 80 marks, 40% of total.
• Paper 1 Section A: 16 marks of MCQs; Section B: 40 marks of short-answer and data-response; Section C: 24 marks of open-ended questions.
• Paper 2: 60 marks of coursework, worth 60%; assigned at the start of the exam year.
• Coursework receives 25 hours of school curriculum time for supervised investigation and practical work.
• Target assessment completion: end of July or early August in the examination year.
• Report: word-processed and electronically submitted; 15–20 pages with relevant photographic evidence.
• Assessment of coursework includes research, decision-making, exploratory study, planning, practical execution, presentation and evaluation.
• Food content spans nutrients and health, meal planning, food labels, food safety, cooking methods and food-science reactions.
• Candidates must do their own school-supervised coursework; families should not manufacture or rewrite the assessed report.
• Food hygiene, allergy awareness and safe use of heat or sharp equipment take priority over a decorative result.
• G2 NFS is a subject level; Posting Group 2 does not automatically determine upper-secondary elective availability.

What makes Nutrition and Food Science an academic subject?

At first glance, a student may assume NFS is about preparing attractive dishes. Cooking is an important part of the course, but the syllabus begins with knowledge and judgement. Why does a nutrient matter? How can a food label be read fairly? What changes when a dish is heated? How should a meal be adapted for a particular target group? Which features of a finished food product can be evaluated with evidence rather than vague approval?

The 2027 syllabus groups learning into Nutrition and Health, Food Literacy and Food Science. Nutrition and Health examines essential nutrients, water, fibre and the relationship between diet and health. Food Literacy concerns meal planning, consumer decisions and understanding labels. Food Science examines the properties of ingredients, food safety, preparation, cooking methods, and chemical or physical changes that influence texture, flavour and appearance.

These clusters connect in real decisions. A proposed meal must suit its intended consumers, be practical to prepare, use appropriate ingredients, and meet food-safety expectations. A student who understands nutrients but ignores preparation methods has incomplete knowledge. Someone who cooks skilfully without considering the target group’s needs also misses the broader design of the task.

The academic value comes from making decisions explicit. Candidates should be able to say why they selected ingredients, how a cooking method changes the food and what they observed during an investigation. They learn to move from ‘this dish is nice’ to a specific evaluation based on evidence.

G2 Nutrition and Food Science versus Posting Group 2

Under Full Subject-Based Banding, Posting Groups 1, 2 and 3 guide Secondary 1 admission and initial subject arrangements. G1, G2 and G3 identify the level at which individual subjects are taken. Students may offer eligible subjects at a mixture of levels, depending on school offerings, eligibility and progress. A Posting Group 2 label does not guarantee that the child is registered for K235.

Nutrition and Food Science is an upper-secondary subject option. Schools differ in available subject combinations and specialised practical facilities. A national syllabus being offered to school candidates is not proof that every Punggol secondary school runs the course. Parents should check directly with the school and clarify the child’s actual subject code.

The previous examination reference was 6073. Older resources may help with some related scientific concepts and practice skills, but the 2027 K235 specification controls assessment timing, task requirements and scope. A school may use shorter lower-secondary practical sessions that are not equivalent to the assessed 25-hour coursework process.

Families considering subject choices should look at workload as well as interest. A student may love cooking but struggle with a sustained report, or enjoy food science but need practice handling equipment safely. These skills can be developed, but an appropriate decision needs an understanding of the whole course.

K235 assessment format: written examination and coursework

Component	Time or period	Marks	Weight
Paper 1 Written	1 hour 30 minutes	80	40%
Paper 2 Coursework	25 hours of curriculum time; complete by end July/early August	60	60%

Paper 1: how the 80 marks are divided

Paper 1 lasts ninety minutes, carries eighty marks and counts for forty percent of the overall NFS result. All questions are compulsory. Section A is sixteen marks of multiple-choice questions. Section B contains forty marks of short-answer and data-response questions. Section C contains twenty-four marks of open-ended questions. This structure rewards both factual understanding and applying knowledge in contexts that students may not have rehearsed word for word.

A multiple-choice item can test whether the student recognises a nutrient’s role or the characteristic of a cooking method. A data-response task may provide information from a food label or a comparison of ingredients. An open-ended question could ask the student to explain a choice, evaluate a method or consider how several factors affect a meal. The precise question content depends on the official syllabus and examination paper.

Memorising a list of vitamins alone is insufficient if the teenager cannot interpret a label or explain why a particular nutrient source is suitable in context. Likewise, being able to name boiling and steaming does not show understanding of how each transfers heat and changes food characteristics. Students should practise making links rather than copying answers that have been learned in isolation.

A good revision session follows a pattern: identify the concept, explain its effect, apply it to an unfamiliar situation and check what evidence supports the conclusion. This sequence helps learners answer both short items and questions requiring developed reasoning.

Paper 2: why the 25-hour coursework counts more

The coursework is sixty percent of the subject result and receives twenty-five hours of curriculum time for investigation and practical activity. It is assigned at the beginning of the examination year, completed under teacher supervision and scheduled for assessment by the end of July or early August. It is therefore not a last-minute recipe assignment that can be completed through one weekend of home cooking.

The coursework requires research into a task, decision-making about appropriate dishes, an exploratory study, planning, food preparation and cooking, and evaluation of the finished work. The candidate is expected to justify the selected dishes using the findings rather than present arbitrary personal favourites. The final report must be electronically submitted with suitable photographic documentation.

The published rubric includes marks for research and decision-making, planning and carrying out an exploratory study, discussing its observations, planning the practical task, organisation and management during execution, manipulation skills, food products and presentation, and evaluation. Students should therefore understand the logic connecting the parts. An attractive final photograph alone cannot demonstrate careful investigation.

Because coursework is assessed, work submitted must reflect the student’s own study and teacher-supervised practical activity. Parents should not conduct the exploratory experiments, cook the dishes on the child’s behalf or rewrite the final report. They can support time management and encourage the student to follow school instructions.

What a good coursework research phase looks like

Research should answer the actual task, not become a collection of attractive photographs from cooking websites. Begin by identifying the target group, the purpose of the dishes and the constraints specified by the examination assignment. What dietary or practical needs must be considered? Which ingredients or methods could help meet those needs? What evidence would distinguish the alternatives?

The quality of sources matters. A food manufacturer’s advertisement may describe a product but is not automatically an independent source for a health claim. A government nutrition guide can provide relevant general information, while a school recipe can demonstrate preparation methods. Use sources appropriate to the question and cite them honestly in the student’s report.

A useful research table could distinguish the decision to be made, the evidence available, a source and the remaining uncertainty. The table does not replace understanding; it helps the learner avoid collecting unrelated information. For example, a candidate comparing two ingredient options should consider their relevant nutrient contribution, cost, preparation properties and appropriateness for the target group.

Research is successful when it changes a decision for a defensible reason. If a student learns that a substitution affects texture or preparation method, the choice of final dish should respond to that finding. The paper trail from evidence to choice is more important than the size of the online search history.

Decision-making: choose dishes for a real reason

The K235 coursework asks students to select and justify final dishes with reference to their research. A good justification names the target group and explains why ingredients, preparation methods and presentation would be appropriate. It should reflect the actual criteria of the task. A recipe that is quick and familiar may still be unsuitable when it misses a specified nutritional or preparation requirement.

Imagine a fictional school assignment to design a suitable meal for a busy teenager participating in school activities. The student should not leap immediately to a favourite dish. They would consider the assignment’s stated nutritional needs, practical time, ingredient availability and safe cooking method, then justify the selection. This is an educational scenario, not personalised dietary advice.

Different options may satisfy different priorities. One may be easier to prepare, another may offer greater flexibility, and another may require ingredients beyond a budget. A thoughtful decision compares the criteria explicitly rather than saying ‘this one is the best because it tastes better’. Taste can be a legitimate consideration, but it is not the only one.

Parents can ask how a choice was reached without making it for the student. ‘What did your research show?’ and ‘Which requirement would this ingredient meet?’ keep the focus on independent reasoning. The actual coursework decision must remain the candidate’s own.

The exploratory study: investigate a food-science question

An exploratory study tests an idea or comparison relevant to the task. It can investigate how an ingredient or method influences a food’s properties, within the approved school practical arrangements. The candidate needs a clear aim, a methodical plan, relevant observations and an explanation of what the results mean for the proposed dishes.

Consider an invented investigation comparing the texture of two versions of a baked product using different ingredient proportions. The important point is not to provide an unverified recipe. It is that the student should identify which factor is changed, what is measured or observed, and which conditions are held as consistent as possible. Otherwise the differences might have several causes.

Sensory observations should be specific. Texture might be described as crumbly, moist or firm; flavour may be mild or pronounced; appearance may be even or irregular; aroma may differ by preparation. The chosen descriptors should reflect what was actually observed, not what the candidate hopes the results will be.

Teacher-supervised investigation must follow kitchen safety and food-handling procedures. Students should not experiment with food safety by deliberately undercooking products, tasting unsafe samples or disregarding allergy precautions. Learning to investigate responsibly is part of the subject.

Planning and timing: the hidden skill behind good coursework

A well-organised practical task begins before any heat is applied. The candidate needs ingredients, equipment, methods, sequencing and time estimates. Some actions can occur in parallel while others depend on an earlier stage. An effective plan prevents long delays, forgotten steps and unnecessary use of resources.

The K235 assessment criteria include organisation and management. That means the student needs to show independent work habits, efficient use of time and sound planning, not only a final plate of food. An elaborate dish may be unsuitable if its required steps cannot be completed within the conditions of the assessed practical.

Use a fictional plan to practise: one component needs preparation while another is cooking, and a third needs time before serving. The learner can draw a timeline, identify dependencies and estimate what must be ready at the same moment. The goal is understanding sequence rather than copying a template from another student’s report.

Parents should encourage preparation but avoid taking over the execution. In a genuine assessment, the student has to manage the task safely and independently under supervision. Practice outside the assessed process should be authorised and appropriate to the student’s skills.

The 15–20-page report: evidence, not decoration

The coursework report must be word-processed, electronically submitted and between fifteen and twenty pages. The syllabus recommends readable fonts such as Arial of at least 11 points or Times New Roman of at least 12 points. Digital photographic evidence of the exploratory study and final dishes is required, with pages numbered clearly.

A good report explains the question, relevant research, chosen dishes, method and results. Photographs should help demonstrate stages or finished outcomes, not merely fill empty space. Captions and discussion should connect the evidence to the task. A beautiful food photograph without a clear explanation may say little about the candidate’s reasoning.

Concise language can be a strength. The report is not improved simply by repeating every definition of nutrition or pasting long website passages. It should show that the learner can select relevant information and use it to justify decisions. Proper acknowledgement of sources is essential to academic integrity.

Because the report has a page requirement, students need to plan its structure early. If research and decisions are delayed until the final week, the candidate may have insufficient time to evaluate findings and revise the explanation. A project calendar can protect the quality of both investigation and writing.

Nutrition and Health: proteins, carbohydrates, fats and more

The syllabus covers proteins, carbohydrates, fats, vitamins, minerals, water and dietary fibre. Students need to understand their functions and examples of sources, with terminology suited to the published learning outcomes. It is not enough to memorise that a nutrient is ‘good’. A useful answer explains what it contributes and how its relevance depends on the given dietary question.

Proteins contribute to growth and repair in the body, while carbohydrates and fats have important roles in energy supply and other functions. Vitamins and minerals serve varied physiological purposes. Water and fibre also matter. The way these nutrients are obtained from a diet involves food choices and patterns over time rather than one supposedly perfect ingredient.

Health-related questions require careful language. Too little or too much of certain dietary components can be associated with health risks, but a school exam answer about nutrition is not a medical diagnosis. Students should learn the general principles required by the syllabus without offering individual treatment plans for classmates or family members.

A helpful study method is to compare two foods using a nutrition table supplied in a textbook. Ask what the data support and what cannot be inferred. The most nutrient-dense item in one dimension does not automatically create a balanced diet by itself.

Reading food labels: the numerical literacy parents use every week

Food labels contain information about serving size, energy, nutrients, ingredients and other product details. The central habit is to read the basis of comparison. A figure shown per serving cannot be compared directly with a figure per 100 grams unless the quantities are made comparable. A package containing several servings can also be misread when a student assumes the printed number applies to the whole package.

Give an invented comparison between two breakfast products. One package has a lower sugar amount per serving but a much smaller serving size. The learner should convert the numbers to a common basis before drawing a conclusion. The question also needs context: what nutritional feature is relevant to the stated meal-planning goal?

Labels are useful but incomplete. They do not establish everything about the eater’s needs, portion patterns, or how foods fit into an overall diet. A student should be able to interpret the information, state a reasonable conclusion and identify limits. That is better than confidently declaring one product universally healthy.

These skills transfer to everyday household shopping in Punggol. A family comparing goods at a supermarket is making decisions about quantity, cost, nutrition and convenience. Students can understand the reasoning without being asked to take responsibility for adult household finances.

Meal planning: the target group changes the answer

K235 includes planning meals for school children, teenagers, adults and older people while considering physiological, social, psychological and economic factors. Age, activity, preferences, cultural practices, dietary restrictions and budget may change which meal is suitable. A plan should be evaluated against the specific group rather than against one universal menu.

A fictional planning task might involve an event for students with stated dietary preferences. The learner must consider appropriate ingredients, sufficient variety and the task’s practical conditions. They should not invent medical restrictions or assume a vegetarian option meets every other dietary need. Questions about allergies require real confirmation rather than guesses.

The syllabus also includes different vegetarian patterns and how these influence choices. Good food literacy involves respecting stated preferences and understanding possible nutritional implications within the general curriculum. It should never become an excuse to stereotype people based on religion, culture or personal food choices.

Help students explain why each decision follows from a requirement. If the task states a need for easy transport, how is the selected dish suitable? If it specifies a particular nutrition goal, which part of the evidence addresses it? Meaningful justification earns more learning than vague claims about a dish being delicious.

Food safety: the most important practical boundary

Food safety is essential before appearance, creativity or speed. Candidates should understand how to reduce contamination and spoilage during preparation, cooking and storage. Clean hands and equipment, appropriate separation of raw and ready-to-eat foods, correct handling of ingredients and following approved food-safety procedures all matter.

Students should never be encouraged to taste uncertain or spoiled food as an experiment. Deliberately unsafe cooking, unattended heating and the use of sharp tools without proper supervision are not acceptable ways to learn food science. Schools provide practical conditions suited to the curriculum and candidate capability.

An excellent report can discuss how hygiene and safety influenced ingredient handling and sequencing. For example, a learner may plan tasks to avoid cross-contamination or to keep preparation stages organised. The explanation should reflect the actual approved method and observations, not a checklist copied after the fact.

When allergies or personal health conditions are involved, students should follow the school’s safety procedures and relevant individual medical advice. The syllabus explains general food science, not personalised treatment or dietary prescription.

Cooking methods: heat transfer and practical effects

The subject includes methods such as boiling, steaming, baking, grilling, frying and microwave cooking, along with conduction, convection and radiation. The learner should be able to explain how a selected method transfers heat and why it is appropriate for a particular product. The goal is to understand the method, not to memorise a ranking in which one technique is always superior.

Boiling and steaming involve different interactions with water and steam. Baking can involve heat transfer through the oven environment and the food container. The effect of a technique depends on the food, its size, composition and preparation conditions. A student should describe the mechanism relevant to the question rather than repeat a general claim about ‘healthy cooking’.

Questions can also compare time, equipment, texture and resource use. A method that produces an attractive surface may not be suitable for every recipe or target group. Explain trade-offs and practical limitations. In a coursework investigation, observations should reflect the actual result under school supervision.

Safe temperatures and procedures must be followed according to school or authoritative food-safety guidance. This guide deliberately does not give shortcut instructions for handling potentially hazardous raw ingredients; those practical decisions require approved procedures.

Food science reactions: how ingredients transform

Cooking changes ingredients physically and chemically. The syllabus includes gelatinisation, caramelisation, dextrinisation, denaturation, coagulation, emulsion formation, gluten development, Maillard browning and enzymatic browning, among other concepts. Each has a particular mechanism and effect. A student should avoid treating all browning or thickening as the same phenomenon.

Consider a mixture that thickens when heated. A strong explanation identifies the relevant ingredients and process rather than simply saying ‘the heat cooks it’. If proteins change structure during preparation, the learner should connect the change to the food’s observed texture. When a surface browns, the correct process depends on the composition and conditions described.

Sensory analysis helps make these concepts observable. Texture, appearance, flavour and aroma can provide evidence of a change, though they may not by themselves prove the full mechanism. The student should link observations to relevant science and acknowledge where further information would be needed.

Use teachers’ approved recipes and diagrams to practise. Reproducing dangerous experiments or improvised food chemistry at home is unnecessary. A carefully analysed classroom result can teach the principle without introducing avoidable risks.

Sensory evaluation: replace ‘nice’ with evidence

The coursework requires candidates to evaluate the sensory properties of their dishes. ‘The dish tasted nice’ communicates personal approval but provides little information. Better evaluation describes appearance, texture, aroma and flavour in terms relevant to the intended product. The descriptors should be accurate and proportional, not invented merely to sound technical.

For a hypothetical baked item, a student might observe an uneven surface, a dry crumb or a particular aroma. The report should explain what was observed and how it affects the task’s requirements. If a target group needs a certain texture, the evaluation can compare the actual outcome with that criterion. The learner should not claim that every taster has the same preference.

Evaluation also includes process reflection. What stages were efficient? Where did timing cause a problem? What would be changed next time, and why? A useful suggestion addresses an identified weakness, not a generic promise to ‘do better’. The reasoning is strengthened when it draws on research or observations.

Teach students to distinguish observation from judgement. ‘The sample was crumbly’ is an observation; ‘crumbly texture made it unsuitable for the specified portable snack’ is an interpretation linked to the brief. This separation develops scientific and practical communication.

A fictional Punggol meal-planning scenario

Imagine a school assignment, unrelated to any actual event, asking students to propose dishes for a small afternoon gathering in Punggol. The assignment defines a limited budget, available preparation time, a target group and certain stated food preferences. The candidate should begin by listing the constraints and deciding what evidence is needed before selecting dishes.

A research phase could compare relevant ingredients and general nutrition guidance. An exploratory study might investigate a permitted recipe variable under teacher supervision. The student would then choose appropriate dishes, create a practical time plan and record the result carefully. The example is intentionally conceptual: the actual SEC assignment is set and supervised by the school.

The reporting task could include labelled photographs of the permitted investigation, a reasoned comparison of options and sensory evaluation of final products. The student should explain which observed results led to final decisions. A longer report with no clear connection between research and choice would be less useful.

This example demonstrates the difference between planning a meal and completing assessed food-science coursework. The latter joins investigation, nutrition knowledge, execution, safety and critical reflection in a coherent process.

A four-week foundation plan before coursework starts

Week 1 — Understand the syllabus and analyse food labels. Review proteins, carbohydrates, fats, fibre, water and selected vitamins or minerals. Practise comparing two hypothetical nutrition tables on a common serving basis. Identify the student’s misconceptions and revisit them with different examples.

Week 2 — Study the science of cooking. Use school diagrams or approved demonstrations to distinguish heat-transfer methods and selected food reactions. Explain one process in terms of ingredients, conditions and observed effect. Work on precise sensory vocabulary without conducting unsupervised hazardous cooking experiments.

Week 3 — Plan for a defined group. Take an invented food-planning brief and identify its requirements. Research appropriate general guidance, compare alternative dishes, and propose a testable investigative question. Explain why the chosen evidence is relevant. Preserve independence rather than copying an online meal plan.

Week 4 — Practise explanation and report structure. Write a short sample research summary, annotated comparison and evaluation using provided educational data. Attempt Paper 1-style short-answer and open-ended questions. Create a calendar for the assessed year, but do not pre-complete the actual coursework before the teacher issues and supervises it.

What families can do without taking over the coursework

Parents can support everyday food literacy through calm discussions about labels, ingredients, shopping quantities and how different cooking methods work. A teenager may compare general nutrition information or describe why a chosen meal suits a fictional situation. These activities reinforce concepts without turning the household into a shadow examination kitchen.

Helping a child find credible sources is different from writing the research for them. Ask what the source establishes, how it connects to the task and whether the claim should be verified elsewhere. In genuine coursework, the student’s own research and explanation must remain evident.

Time management is a useful area of support. The coursework has a defined curriculum allocation and assessment period; missed stages can create pressure. Families can encourage the student to know the school’s timeline, prepare for classes and ask teachers about material or safety requirements. Do not replace teacher-supervised work with a parent-managed home project.

If the child is struggling, identify whether the problem is theory, research selection, practical skill, report organisation or evaluation. A broad statement such as ‘weak at Food and Nutrition’ gives no clear next step.

Common mistakes and the practical fixes

Mistake one: selecting dishes before defining the target group. Repair it by writing the task constraints first and showing how each chosen dish meets a particular requirement.

Mistake two: copying information without applying it. Repair it by adding a decision statement explaining what the research changed, or why one option was rejected.

Mistake three: confusing sensory evaluation with praise. Replace ‘very delicious’ with accurate observed properties and explain their relevance to the task.

Mistake four: leaving the report until the end. Record decisions, observations and approved photographic evidence during the supervised process so that the final report reflects real work rather than reconstructed memories.

Mistake five: prioritising appearance over safety. No presentation mark justifies unsafe preparation or contamination. Follow the teacher’s safety procedures and keep correct handling integral to the plan.

Why the subject matters beyond examinations

Food decisions affect everyday routines, culture, cost, convenience and environmental resources. NFS gives teenagers language and tools to reason about those decisions. A student who understands portion information and nutrient functions is better prepared to read claims about products critically. Someone who can plan a sequence of tasks and evaluate a result develops wider project-management skills.

The science of cooking also illustrates how abstract ideas become observable. Heat transfer and food reactions connect chemistry and physics with familiar experiences. A practical investigation can help the student understand variables, fair comparison and how to form a conclusion without overstating what one trial proves.

Food literacy encourages respect for different needs and preferences. A family gathering may involve people of different ages, cultures and dietary requirements. Thoughtful planning listens to those constraints rather than assuming that one meal suits everyone. This is an exercise in communication as well as food science.

The larger educational goal is responsible independence. Students learn to gather evidence, plan safely, make decisions, explain outcomes and identify improvements. These skills remain valuable regardless of whether the learner later pursues a food-related career.

Frequently asked questions about G2 Nutrition and Food Science

What is the 2027 code for G2 Nutrition and Food Science?

K235, with an earlier reference code of 6073.

How long is the written paper?

One hour and thirty minutes. Paper 1 is 80 marks and worth 40% of the subject.

What is tested in Paper 1?

Sixteen marks of MCQs, forty marks of short-answer and data-response, and twenty-four marks of open-ended questions.

How much does coursework count?

Paper 2 coursework is 60 marks and contributes 60% of the final result.

How many hours are allocated for coursework?

The official syllabus assigns 25 hours of curriculum time for supervised investigation and practical work.

When is the coursework completed?

The syllabus directs assessment completion by the end of July or early August of the examination year, subject to current school instructions.

How long must the report be?

Between 15 and 20 numbered pages, word-processed and electronically submitted with relevant photographic evidence.

Do students prepare three dishes?

The syllabus describes selecting three final dishes with research-based justification and conducting the required approved practical task.

Is it acceptable to have a parent cook the assessed dishes?

No. This is individually assessed work under teacher supervision, and authentic student performance is essential.

Does NFS cover food labels?

Yes. Food literacy includes understanding and applying information from nutrition and food labels.

Is NFS a medical or dietetics qualification?

No. It teaches school-level nutrition and food science. Individual medical dietary issues should be addressed by appropriate professionals.

Can every PG2 student take this subject?

Not automatically. G2 is an individual subject level, and each school determines available upper-secondary offerings and eligibility.

Official syllabus and relevant eduKate reading

Use the official 2027 K235 Nutrition and Food Science syllabus, available from SEAB’s G2 school-candidate directory. It explains the 40:60 split, coursework assessment and subject topics. Updated SEAB or school instructions should take priority over summaries.

Continue with G2 Nutrition and Food Science Paper 1, Paper 2 investigation and three dishes, local NFS choices and food safety, and G2 Science and experimental reasoning.

Begin with the student’s current level and actual school task. The goal is a learner who can explain food choices, use evidence carefully and work safely and independently.